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| # Rockman Benchmark v0.2 - Methodology | |
| ## Overview | |
| Rockman is a comprehensive benchmark for evaluating Large Language Models (LLMs) on code generation, debugging, optimization, and software engineering tasks. This document describes the methodology, design principles, and evaluation protocols. | |
| ## Design Principles | |
| ### 1. **Realistic Software Engineering Tasks** | |
| Beyond simple function generation, Rockman evaluates: | |
| - **Debugging**: Fixing bugs in existing code (logic bugs, off-by-one, edge cases, etc.) | |
| - **Optimization**: Achieving specific complexity targets (O(n log n), O(1), etc.) | |
| - **Stateful Systems**: Classes with persistent state (caches, ledgers, schedulers) | |
| - **Multi-step Reasoning**: Parse → Build → Solve pipelines | |
| - **Software Engineering**: Refactoring, API implementation, parser design | |
| ### 2. **Hidden Tests & Contamination Prevention** | |
| - **Public tests**: Visible to models during evaluation | |
| - **Private tests**: Encrypted, only decrypted on evaluation server | |
| - **Hidden tests**: Never published, used for final leaderboard | |
| - **Canary strings**: Unique identifiers embedded in each problem to detect training data contamination | |
| - **Content hashing**: SHA256 hashes verify problem integrity | |
| ### 3. **Multi-Language Evaluation** | |
| Problems can be evaluated in Python, C++, Java, JavaScript, TypeScript, Rust, and Go. | |
| Language-specific runners with consistent resource limits. | |
| ### 4. **Difficulty Calibration** | |
| - 7 difficulty levels (1=Introductory → 7=Research) | |
| - Calibrated using reference models and human baselines | |
| - Empirically validated separation between levels | |
| ## Problem Schema | |
| Each problem contains: | |
| ```json | |
| { | |
| "task_id": "Rockman/DP_041", | |
| "category": "Dynamic Programming", | |
| "subcategory": "Knapsack", | |
| "difficulty": 4, | |
| "prompt": "def knapsack(...) -> int:\n \"\"\"...\"\"\"", | |
| "public_test": "assert knapsack(...) == ...", | |
| "hidden_test_encrypted": "...", | |
| "time_limit": 2.0, | |
| "memory_limit": 256, | |
| "language": "python", | |
| "tags": ["dp", "optimization", "knapsack"], | |
| "source_type": "original", | |
| "expected_complexity": "O(nW)", | |
| "deterministic": true, | |
| "task_type": "generation", | |
| "version": "v0.2", | |
| "creation_date": "2024-09-19T...", | |
| "content_hash": "abc123...", | |
| "canary": "ROCKMAN_CANARY_..." | |
| } | |
| ``` | |
| ## Task Types | |
| | Type | Description | Evaluation | | |
| |------|-------------|------------| | |
| | `generation` | Implement function from signature | Standard I/O tests | | |
| | `debugging` | Fix bug in provided code | Standard I/O tests | | |
| | `completion` | Complete partial implementation | Standard I/O tests | | |
| | `refactoring` | Improve code quality | Tests + style checks | | |
| | `optimization` | Meet complexity target | Tests + performance tests | | |
| | `api_implementation` | Implement interface/class | Integration tests | | |
| | `parsing` | Parse structured input | I/O + validation | | |
| | `file_io` | Read/write files | Temporary filesystem | | |
| | `stateful` | Class with persistent state | Sequential operations | | |
| | `multi_step` | Multi-phase problem | Step-wise validation | | |
| ## Categories (12 Main Categories) | |
| 1. **Fundamentals**: Arrays, Strings, Hash Tables, Sorting, Searching, Two Pointers, Sliding Window, Prefix Sum, Difference Array, Binary Search | |
| 2. **Data Structures**: Stack, Queue, Deque, Linked List, Heap, Hash Map, Union-Find, Segment Tree, Fenwick Tree, Trie, Sparse Table, Monotonic Stack/Queue | |
| 3. **Algorithms**: Greedy, Divide & Conquer, Backtracking, Recursion, DP, Bit Manipulation, Randomized, Computational Geometry | |
| 4. **Graphs**: BFS, DFS, Shortest Path, Dijkstra, Bellman-Ford, Floyd-Warshall, MST, Kruskal, Prim, Topological Sort, SCC, Bipartite, Flow, Matching, Eulerian, Hamiltonian | |
| 5. **Trees**: Binary Trees, BST, AVL, Tree DP, LCA, Traversal, Subtree Queries, Heavy-Light | |
| 6. **Math**: Number Theory, Primes, GCD/LCM, Modular Arithmetic, Combinatorics, Probability, Matrix Ops, Linear Algebra, Numerical Methods, Geometry | |
| 7. **Debugging**: Logic Bugs, Off-by-One, Edge Cases, Type Errors, State Mutation, Infinite Loops, Complexity Bugs, Recursion Bugs | |
| 8. **Complexity**: O(1), O(log n), O(n), O(n log n), O(n²), Space Complexity | |
| 9. **Software Engineering**: Class Design, Inheritance, Refactoring, Feature Addition, Backwards Compatibility, Exception Handling, Parser, Interface, Regression Fix, Performance | |
| 10. **Stateful Systems**: Cache/LRU, Banking Ledger, Event Processor, Task Scheduler, Game State, Inventory, Session Manager, Transaction System | |
| 11. **Multi-step**: Parse→Build→Solve, Multi-phase Algorithm, Pipeline Processing | |
| ## Difficulty Levels | |
| | Level | Label | Description | | |
| |-------|-------|-------------| | |
| | 1 | Introductory | Basic syntax, simple loops/conditionals | | |
| | 2 | Easy | Standard algorithms, direct application | | |
| | 3 | Intermediate | Algorithm combination, moderate reasoning | | |
| | 4 | Advanced | Complex algorithms, optimization required | | |
| | 5 | Hard | Novel algorithm design, heavy optimization | | |
| | 6 | Expert | Research-level, unsolved variants | | |
| | 7 | Research | Open problems, novel contributions | | |
| ## Evaluation Protocol | |
| ### Pass@k Metric | |
| For each problem, we generate `n` samples from the model and count `c` correct solutions: | |
| $$\text{Pass@k} = 1 - \frac{\binom{n-c}{k}}{\binom{n}{k}}$$ | |
| If $n - c < k$, Pass@k = 1.0. | |
| **Overall Score**: Mean Pass@1 across all problems. | |
| ### Efficiency Score | |
| Pass rate on problems tagged with `complexity` or `efficiency`, measuring ability to produce asymptotically optimal solutions. | |
| ### Robustness Score | |
| Pass rate on problems tagged with `edge-case` or `robustness`, measuring handling of boundary conditions. | |
| ### Statistical Rigor | |
| - **Confidence Intervals**: Wilson score interval (95%) for binomial proportions | |
| - **Significance Testing**: Two-proportion z-test for model comparisons | |
| - **Minimum Samples**: At least 10 samples per problem for reliable Pass@k | |
| ## Execution Environment | |
| ### Sandbox Security | |
| Code execution uses containerized sandbox: | |
| - No network access | |
| - Read-only root filesystem | |
| - CPU/memory limits enforced via cgroups | |
| - Process limits (pids_limit) | |
| - Temporary filesystem with size limits | |
| - Non-root user execution | |
| ### Determinism | |
| - Fixed random seeds for reproducible execution | |
| - Multiple runs (default 3) to verify determinism | |
| - Environment capture: OS, compiler versions, hardware, environment variables | |
| - Reproducibility manifest generated for each evaluation | |
| ### Resource Limits | |
| | Limit | Default | Configurable | | |
| |-------|---------|--------------| | |
| | Time | 2.0s | Per-problem | | |
| | Memory | 256 MB | Per-problem | | |
| | CPU | 1 core | Global | | |
| | Processes | 64 | Global | | |
| ## Quality Assurance | |
| ### Validation Pipeline | |
| Each problem passes 13 validation checks: | |
| 1. Valid prompt with signature and docstring | |
| 2. Parsable test cases | |
| 3. Reference solution passes | |
| 4. Tests detect known buggy solutions (negative testing) | |
| 5. No ambiguous language | |
| 6. Difficulty consistent with category | |
| 7. Runtime within 50% of limit | |
| 8. Memory within 50% of limit | |
| 9. Deterministic execution | |
| 10. Appropriate tags | |
| 11. Hidden tests exist | |
| 12. Complexity notation valid | |
| 13. No contamination detected | |
| ### Version Management | |
| - **Immutable versions**: Published versions never modified | |
| - **Version registry**: Tracks all versions with task IDs and hashes | |
| - **Integrity verification**: SHA256 hashes for each version | |
| ## Contamination Prevention | |
| 1. **Canary Strings**: Each problem has unique `ROCKMAN_CANARY_<hash>` embedded | |
| 2. **Source Attribution**: `source_type` (original/adapted/generated/contributed) + `source_url` | |
| 3. **Derivation Tracking**: `derived_from` lists original problem IDs | |
| 4. **Generation Metadata**: `generation_method`, `generator_version` | |
| 5. **Content Hashing**: SHA256 of prompt+tests for integrity verification | |
| 6. **Split Management**: Public/Private/Hidden with no overlap | |
| ## Reporting | |
| ### Standard Metrics Reported | |
| - Overall Pass@1 | |
| - Per-difficulty breakdown (1-7) | |
| - Per-category breakdown (12 categories) | |
| - Per-task-type breakdown (10 types) | |
| - Per-language breakdown | |
| - Efficiency score | |
| - Robustness score | |
| - 95% Confidence intervals | |
| ### Leaderboard Format | |
| | Model | Version | Temp | Tokens | Attempts | Hardware | Date | Overall | DP | Graphs | Debug | Adv | | |
| |-------|---------|------|--------|----------|----------|------|---------|-----|--------|-------|-----| | |
| ### Human Baselines | |
| Human evaluation with documented participants: | |
| - Experience level (novice → competitive) | |
| - Domain background | |
| - Years of experience | |
| - Competitive programming rating | |
| - Time-to-solve statistics | |
| ## References | |
| - Chen et al., "Evaluating Large Language Models Trained on Code" (HumanEval) | |
| - Austin et al., "Program Synthesis with Large Language Models" (MBPP) | |
| - Li et al., "Competition-Level Code Generation with AlphaCode" |